The Galilean moons play major roles in the giant magnetosphere of Jupiter. At the same
time, the magnetospheric particles and fields affect the moons. The impact of …

Previous Juno mission event studies revealed powerful electron and ion acceleration, to
100s of kiloelectron volts and higher, at low altitudes over Jupiter's main aurora and polar …

The habitability of the surface of any planet is determined by a complex evolution of its
interior, surface, and atmosphere. The electromagnetic and particle radiation of stars drive …

The Juno spacecraft acquired direct observations of the jovian magnetosphere and auroral
emissions from a vantage point above the poles. Juno's capture orbit spanned the jovian …

Jupiter displays the most powerful auroral emissions in our solar system, which result from
strong energy dissipation in Jupiter's surrounding space environment. Although mass and …

The Juno spacecraft's polar orbits have enabled direct sampling of Jupiter's low‐altitude
auroral field lines. While various data sets have identified unique features over Jupiter's …

Jupiter's bright persistent polar aurora and Earth's dark polar region indicate that the planets'
magnetospheric topologies are very different. High-resolution global simulations show that …

The electromagnetic interaction between Io, Europa, and Ganymede and the rotating
plasma that surrounds Jupiter has a signature in the aurora of the planet. This signature …

The Juno spacecraft crossed flux tubes connected to the Io footprint tail at low Jovian
altitudes on multiple occasions. The transits covered longitudinal separations of …

A large set of observations of Jupiter's ultraviolet aurora was collected with the Hubble
Space Telescope concurrently with the NASA‐Juno mission, during an eight‐month period …